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ACTA ICHTHYOLOGICA ET PISCATORIA (2020) 50 (3): 367–372 DOI: 10.3750/AIEP/03015

FIRST NORTHERN HEMISPHERE RECORDS OF THE SAMOAN , APIENSIS (: : ENGRAULIDAE)

Harutaka HATA *1 and Hiroyuki MOTOMURA 2

1 Center for Molecular Biodiversity Research, National Museum of Nature and Science, Amakubo, Tsukuba, Ibaraki, Japan 2 The Kagoshima University Museum, Kagoshima, Japan

Hata H., Motomura H. 2020. First Northern Hemisphere records of the Samoan anchovy, Stolephorus apiensis (Actinopterygii: Clupeiformes: Engraulidae). Acta Ichthyol. Piscat. 50 (3): 367–372. Abstract. Two Japanese specimens of the Samoan anchovy, Stolephorus apiensis (Jordan et Seale, 1906), previously known only from Papua New Guinea, Fiji, and Samoa, were confirmed during a revisionary taxonomic study of the . Although S. apiensis has been redescribed recently, details of its distributional range and habitat have remained unclear. The presently reported study sought to clarify some aspects of both. Two specimens of S. apiensis were examined, counts and proportional measurements following Hata and Motomura (2017). All measurements were made with digital calipers to the nearest 0.01 mm. Institutional codes follow Sabaj (2019). Two specimens, collected from Japanese river estuaries, represent the first Northern Hemisphere records of S. apiensis, extending the northern limit of the species’ distribution by approx. 4300 km. Stolephorus apiensis is considered to be widely distributed in the western Pacific from southern Japan to Samoa, most likely as a sometime inhabitant of estuarine waters. The new standard Japanese name “Nampu-ainokoiwashi” is proposed for the species. Keywords: , Stolephorus insignus, Shikoku, Ryukyu Islands, Japan

INTRODUCTION Kochi Prefecture and Urauchi River estuary, Iriomote- Stolephorus Lacepède, 1803, an Indo-Pacific genus jima Island, Japan, were found in the collections of the of marine and/or brackish water (Engraulidae), Faculty of Science, Department of Natural Science, comprises 26 valid species (Whitehead et al. 1988, Kochi University and Okinawa Churashima Foundation, Wongratana et al. 1999, Kimura et al. 2009, Hata and respectively. They were identified asStolephorus apiensis Motomura 2018a, 2018b, Hata et al. 2019, 2020, Gangan et (Jordan et Seale, 1906), previously recorded only from al. 2020), many being abundantly caught and marketed in New Ireland (Papua New Guinea), Fiji, and Samoa (Hata tropical Asia (Rau and Rau 1980, Talwar and Kacker 1984, and Motomura 2018b, Fricke et al. 2019). The present Conlu 1986, Phui Kong 1998, White et al. 2013, Psomadakis specimens, described in detail herein, represent the first et al. 2015, 2019, Hata 2018b, 2019, Hata et al. 2020), Japanese records of the species, the Kochi specimen also although rarely seen off Japan. In fact, only two species, being the northernmost record known. Stolephorus commersonnii Lacepède, 1803 and Stolephorus indicus (van Hasselt, 1823), have been formally recorded MATERIALS AND METHODS from Japanese waters (Nishishimamoto 1963a, Kimura et al. Counts and proportional measurements, expressed as 1999, Aonuma and Yagishita, 2013b). The occurrence and percentages of standard length (SL), followed Hata and catch of S. indicus off southern Japan, including Kyushu Motomura (2017). All measurements were made with and the Ryukyu Islands, are comparatively rare (Miura digital calipers to the nearest 0.01 mm. Institutional codes 2012, Hata 2017, 2018a, Kobayashi 2019), and records of follow Sabaj (2019). S. commersonnii from Japanese waters even more limited [so deficient in habitat and biological information (Kimura et al. RESULTS 1999, Yoshigou 2014) that the species is ranked as “DD (Data Family ENGRAULIDAE Deficient)” in the Red List of threatened marine issued Stolephorus apiensis (Jordan et Seale, 1906) by the Ministry of the Environment, Government of Japan]. [English name: Samoan Anchovy; new standard Japanese During a revisionary study of the genus, two engraulid name: Nampu-ainokoiwashi] specimens collected from the Shimanto River estuary, (Fig. 1; Tables 1, 2)

* Correspondence: Dr. Harutaka Hata, 茨城県つくば市天久保4-1-1 国立科学博物館分子生物多様性研究資料センター,phone: +81 080-1327-1935, e-mail: (HH) [email protected], (HM) [email protected]. 368 Hata and Motomura

Material examined. 2 specimens, 53.0–54.2 mm fin origin. Posterior tip of depressed pelvic fin reaching to SL. BSKU 55110, 54.2 mm SL, approx. 400 m below the vertical through third or fifth dorsal-fin ray base. Caudal junction of the Takeshima and Nabeshima rivers (Shimanto fin forked, tips of both lobes pointed. Basin), Shimanto City, Kochi Prefecture, southern Japan, Coloration of preserved specimens. Body uniformly 12 October 1999; URM-P 15468, 53.0 mm SL, estuary pale ivory. Indistinct light brown longitudinal band of Urauchi River, Iriomote-jima Island, Ryukyu Islands, narrower than eye running from opercle to caudal-fin Japan, 18 August 1985. base. Paired dark patches on parietal and occipital regions Description. Counts and measurements, expressed as (those on occipital region relatively indistinct; Fig. 2B, E). percentages of SL or HL, given in Tables 1 and 2. Body No dark lines on dorsum. Melanophores scattered along laterally compressed, elongate, deepest at dorsal fin origin. scale pockets on dorsum, a few on snout tip, no black spots Dorsal profile of head and body gently elevated from below eye and lower-jaw tip. Fins pale, semi-transparent. snout tip to dorsal fin origin, thereafter gradually lowering Melanophores scattered along caudal-fin rays. to uppermost point of caudal fin base. Ventral profile of Distribution. Stolephorus apiensis has been previously head and body gently lowering from lower-jaw tip to recorded from Papua New Guinea (New Ireland), Fiji, and below pectoral fin, thereafter nearly straight (parallel to Samoa (Whitehead et al. 1988, Wongratana et al. 1999, body axis) to anal fin origin, gradually elevated along anal Hata and Motomura 2018b, Fricke et al. 2019), and is here fin base, thereafter nearly straight (parallel to body axis) newly recorded from Japan (Yaeyama Islands and Kochi to lowermost point of caudal fin base. Abdomen rounded, Prefecture). covered with three or five spine-like scutes anterior to pelvic fin insertion. Pelvic scute without spine. Postpelvic DISCUSSION and predorsal scutes absent. Anus just anterior to anal The specimens collected from Japan were assigned to fin origin. Snout round, projecting, length less than eye the genus Stolephorus, as defined by Whitehead et al. (1988) diameter. Eye large, round, covered with adipose eyelid, and Wongratana et al. (1999), due to having a long isthmus positioned laterally on head dorsal to horizontal through muscle reaching anteriorly to the posterior margin of the pectoral fin insertion, visible in dorsal view. Pupil round. gill membrane, and hidden urohyal and prepelvic scutes, Orbit elliptical. Nostrils close to each other, anterior to and the absence of postpelvic scutes. The specimens were orbit. Mouth large, inferior, ventral to body axis, extending further identified on the basis of the following combination backward beyond posterior margin of eye. Maxilla rather of characters, closely matching the diagnostic features of long, its posterior tip slightly short of posterior margin Stolephorus apiensis given by Whitehead et al. (1988), of preopercle. Lower jaw slender. Single row of conical Wongratana et al. (1999), and Hata and Motomura (2018b): teeth on each jaw and palatines. Several conical teeth on maxilla rather long, its posterior tip slightly short of vomer. Small fine teeth on pterygoids. Posterior margins posterior margin of preopercle; no predorsal scutes; pelvic of preopercle, subopercle and opercle rounded, smooth scute without spine; posterior margin of preopercle round, (opercle broken on both sides in BSKU 55110). Gill convex; paired obscure dark patches on parietal and occipital membrane without serrations. Interorbital space flat. regions without following dark lines; black spots below Interorbital width less than eye diameter. Pseudobranchial eye and lower-jaw tip absent; body elongate, posterior tip filaments present, length of longest filament less than eye of depressed pelvic fin reaching to vertical through third or diameter. Gill rakers long, slender, rough, visible from fifth dorsal-fin ray origin; gill rakers numerous, 21 + 27–28 side of head when mouth opened. Isthmus muscle long, = 48–50 (1st gill arch), 15 + 25–26 = 40–41 (2nd), 11–12 reaching anteriorly to posterior margin of gill membranes. + 15 = 26–27 (3rd), 10 + 12 = 22 (4th) on each gill arch; Urohyal hidden by isthmus muscle (not visible without body elongate, its depth 18.6%–19.4% of SL; anal fin base dissection). Gill membrane on each side joined distally, long, its length 20.2%–20.6% of SL; caudal peduncle short, most of isthmus muscle exposed (not covered by gill its length 17.5%–17.7% of SL. In addition, the meristics membrane). Head scales absent. Lateral line absent. Fins and morphometrics of the presently reported specimens scaleless, except for broad triangular sheath of scales on closely matched those of S. apiensis given by Hata and caudal fin. Dorsal fin origin posterior to vertical through Motomura (2018b) (Tables 1, 2). Only two Stolephorus base of last pelvic-fin ray, slightly posterior to middle of species, Stolephorus commersonnii Lacepède, 1803 and body. Dorsal and anal fins with three anteriormost rays Stolephorus indicus (van Hasselt, 1823), have been recorded closely spaced and unbranched. First dorsal- and anal- previously from Japanese waters (Aonuma and Yagishita fin rays minute. Dorsal profile of dorsal fin elevated from 2013b). However, the number of lower gill rakers on the dorsal fin origin to third fin ray tip and lowering to last first gill arch is generally lower in the latter species (23–28 dorsal-fin ray tip. Anal fin origin just below base of tenth in S. commersonnii, 20–28 in S. indicus), compared with or eleventh dorsal-fin ray. Posterior tip of depressed anal S. apiensis (27–30). Stolephorus apiensis also differs from fin not reaching caudal fin base. Uppermost pectoral-fin S. commersonnii in having paired obscure dark patches on ray unbranched, inserted below midline of body. Posterior the parietal and occipital regions without following dark tip of pectoral fin not reaching vertical through pelvic lines (vs. pairs of dark patches on both regions and pair fin insertion. Dorsal, ventral, and posterior contours of of dark lines on the dorsum from the parietal region to the pectoral fin nearly straight. Pelvic fin shorter than pectoral dorsal fin origin in S. commersonnii). Stolephorus apiensis fin; pelvic fin insertion anterior to vertical through dorsal is easily distinguishable from S. indicus by its longer Northern Hemisphere records of Stolephorus apiensis 369

Fig. 1. Preserved specimens of Stolephorus apiensis from Kochi Prefecture (BSKU 55110, 54.2 mm SL; A: lateral, B: dorsal, and C: ventral) and Iriomote-jima Island (URM-P 15468, 53.0 mm SL; D: lateral, E: dorsal, and F: ventral), Japan maxilla, posteriorly short of or just reaching the posterior However, Spratelloides atrofasciatus Schultz, 1943, a preopercle margin (vs. just reaching the preopercle anterior small clupeiform species like S. apiensis, is also distributed margin of in S. indicus) and depressed pelvic fin extending intermittently in Samoa, the Marshall Islands, and the posteriorly beyond vertical through the dorsal fin origin (vs. Ryukyu Islands, Japan (Schultz 1943, Nishishimamoto not reaching vertical through the fin origin) (Whitehead et al. 1963b, Aonuma and Yagishita 2013a, Ishimori et al. 1988, Wongratana et al. 1999, Hata and Motomura 2018b). 2015, Koeda et al. 2016, Nakae et al. 2018). It is likely, Although the specimens reported here have extended therefore, that S. apiensis is similarly distributed in areas the northern limit of the species’ distribution by approx. between Samoa and Japan, such as the Marshall Islands. 4300 km (and represent the first records of the species No biological or habitat information on S. apiensis from the Northern Hemisphere), the currently known has been reported. However, the Japanese specimens, distributional range of S. apiensis is discontinuous. 370 Hata and Motomura

Table 1 Meristics of specimens of Stolephorus apiensis

This study Hata and Motomura (2018b) Non-types Holotype Paratypes Non-types BSKU 55110 URM-P 15468 USNM 51720 n = 7 n = 35 Standard length (mm) 54.2 53.0 60.9 55.2–66.3 38.8–74.6 Dorsal-fin rays (unbranched) 3 3 3 3 3 Dorsal-fin rays (branched) 13 13 12 12–13 12–14 Anal-fin rays (unbranched) 3 3 3 3 3 Anal-fin rays (branched) 19 18 18 17–19 17–19 Pectoral-fin rays (unbranched) 1 1 1 1 1 Pectoral-fin rays (branched) 13 13 12 12–13 11–14 Pelvic-fin rays (unbranched) 1 1 1 1 1 Pelvic-fin rays (branched) 6 6 6 6 6 Caudal-fin rays 10 + 9 10 + 9 10 + 9 10 + 9 10 + 9 Gill rakers on 1st gill arch (upper) 21 21 21 20–21 20–24 Gill rakers on 1st gill arch (lower) 27 29 29 28–30 27–30 Gill rakers on 1st gill arch (total) 48 50 50 48–51 48–53 Gill rakers on 2nd gill arch (upper) 15 15 16 15–17 14–17 Gill rakers on 2nd gill arch (lower) 25 26 29 24–26 25–30 Gill rakers on 2nd gill arch (total) 40 41 45 41–42 40–47 Gill rakers on 3rd gill arch (upper) 11 12 12 11–12 11–13 Gill rakers on 3rd gill arch (lower) 15 15 15 13–17 14–16 Gill rakers on 3rd gill arch (total) 26 27 27 24–29 25–29 Gill rakers on 4th gill arch (upper) 10 10 9 8 8–10 Gill rakers on 4th gill arch (lower) 12 12 12 10–12 11–13 Gill rakers on 4th gill arch (total) 22 22 21 19–21 19–22 Gill rakers on posterior face of 3rd gill arch 5 6 5 4–5 3–6 Prepelvic scutes 5 3 4 3–4 2–5 Scale rows in longitudinal series 37 35 35 35–38 34–38 Transverse scales 8 8 8 8 8 Pseudobranchial filaments 17 18 17 18 16–20 having been collected from river estuaries, indicate that Tsukuba, Japan; and “Establishment of Glocal Research the species at least sometimes occurs in brackish waters. and Education Network in the Amami Islands” project Because there is no Japanese name for S. apiensis, of Kagoshima University adopted by the Ministry of we propose the new standard Japanese name “Nampu- Education, Culture, Sports, Science and Technology, Japan. ainokoiwashi” for the species, based on a specimen reported herein (BSKU 55110); “Nampu” meaning the REFERENCES south wind, derived from its main distributional area, Aonuma Y., Yagishita N. 2013a. [, herrings.] Southern Hemisphere, with “ainokoiwashi” being the Pp. 297–301, 1811–1812. In: Nakabo, T. (ed.) [Fishes common Japanese name for the genus Stolephorus. of Japan with Pictorial Keys to the Species Third Edition.] Tokai University Press, Hadano, Japan. [In ACKNOWLEDGMENTS Japanese.] We are especially grateful to H. Endo (BSKU) and Aonuma Y., Yagishita N. 2013b. Engraulidae, anchovies. K. Miyamoto (OCF) for opportunities to examine the Pp. 302–304, 1812–1813. In: Nakabo, T. (ed.) Fishes Japanese specimens, and also thank G. Hardy (Ngunguru, of Japan with Pictorial Keys to the Species Third New Zealand) for reading the manuscript and providing Edition. Tokai University Press, Hadano, Japan. [In help with English. This study was supported in part by the Japanese.] Sasakawa Scientific Research Grant from the Japan Science Conlu P.V. 1986. Guide to Philippine flora and fauna. Society (28-745); a Grant-in-Aid from the Japan Society Volume IX, Fishes. Natural Resources Management for the Promotion of Science for JSPS Fellows (DC2: 29- Center Ministry of Natural Resources, Manila and 6652); JSPS KAKENHI Grant Numbers 19K236910001, University of the Philippines, Manila, the Philippines. JP23580259, JP26450265, and 20H03311; the JSPS Core- Fricke R., Allen G.R., Amon D., Andréfouët S., Chen to-Core Program: B Asia-Africa Science Platforms; the W.-J., Kinch J., Mana R., Russell B.C., Tully D., “Biological Properties of Biodiversity Hotspots in Japan” White W.T. 2019. Checklist of the marine and estuarine project of the National Museum of Nature and Science, fishes of New Ireland Province, Papua New Guinea, Northern Hemisphere records of Stolephorus apiensis 371

Table 2 Morphometrics of specimens of Stolephorus apiensis

This study Hata and Motomura (2018b) Non-types Holotype Paratypes Non-types BSKU 55110 URM-P 15468 USNM 51720 n = 7 n = 35 Standard length (mm) 54.2 53.0 60.9 55.2–66.3 38.8–74.6 As % SL Head length broken 24.1 24.4 23.9–24.8 23.3–26.0 Body depth 18.6 19.4 18.9 18.1–19.6 17.0–20.0 Pre-dorsal fin length 53.6 52.3 55.3 53.3–56.0 51.9–56.5 Snout tip to pectoral fin insertion 25.4 26.1 26.6 25.5–7.3 25.4–28.5 Snout tip to pelvic fin insertion 43.8 44.3 45.4 43.6–46.0 42.4–47.4 Snout tip to anal fin origin 62.5 61.6 65.1 61.9–66.6 59.9–66.6 Dorsal fin base length 14.8 15.2 13.7 13.8–15.3 13.5–16.0 Anal fin base length 20.36 20.2 20.4 20.2–21.8 20.4–23.3 Caudal peduncle length 17.5 17.7 16.5 15.2–17.8 14.4–18.3 Caudal peduncle depth 8.4 8.8 9.4 8.9–9.8 8.3–10.0 D–P1 32.6 32.7 33.3 32.9–36.8 31.3–36.4 D–P2 20.3 22.6 21.8 20.2–21.8 20.1–23.5 D–A 19.8 20.8 20.8 19.9–21.8 19.4–21.6 P1–P2 19.2 18.5 19.1 17.6–21.8 17.0–20.2 P2–A 19.3 17.6 20.7 17.8–21.7 16.4–20.7 Pectoral fin length 16.2 15.1 broken 16.8 13.7–16.1 Pelvic fin length 11.1 10.5 11.8 10.1–11.3 9.4–11.9 Maxilla length 17.3 18.2 broken broken 17.3–18.7 Mandibular length 15.6 16.2 16.5 16.2–16.9 15.5–17.7 Supramaxilla end to maxilla end 3.3 3.0 broken broken 2.3–4.1 1st unbranched dorsal-fin ray length 2.3 2.0 1.6 0.9–2.0 1.4–2.8 2nd unbranched dorsal-fin ray length 8.7 8.4 broken broken 6.6–9.6 3rd dorsal-fin ray length broken broken broken broken 15.2–18.5 1st unbranched anal-fin ray length 2.3 1.7 1.0 1.1–1.8 1.3–3.6 2nd unbranched anal-fin ray length 6.3 6.1 broken broken 4.9–6.7 3rd anal-fin ray length 13.8 12.1 broken broken 11.6–15.6 As % HL Orbit diameter broken 34.7 34.6 33.4–34.8 31.1–36.0 Eye diameter broken 29.7 26.5 27.6–29.8 24.5–29.3 Snout length broken 17.0 16.8 15.2–16.9 14.4–17.6 Interorbital width broken 24.7 25.6 23.6–24.8 22.0–25.4 Postorbital length broken 51.1 50.7 49.4–51.1 48.1–53.6

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